Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A method, comprising: obtaining, by a transmit end, a to-be-transmitted service stream, wherein the to-be-transmitted service stream is to be transmitted by the transmit end to a receive end using a target virtual connection, the target virtual connection is supported by a physical connection group, the physical connection group comprises a plurality of physical connections, the plurality of physical connections of the physical connection group is connected between the transmit end and the receive end; determining, by the transmit end, from total bandwidth resources of the plurality of physical connections of the physical connection group, and according to one or more timeslot configuration tables used by the plurality of physical connections of the physical connection group, a first timeslot bandwidth resource that belongs to the target virtual connection, wherein each physical connection of the plurality of physical connections uses a timeslot configuration table of the one or more timeslot configuration tables, each timeslot configuration table of the one or more timeslot configuration tables indicates a virtual connection to which a timeslot resource of a plurality of timeslot resources belongs, and wherein the plurality of timeslot resources are obtained by dividing a bandwidth resource of each physical connection of the plurality of physical connections; and transmitting, by the transmit end, the service stream to the receive end using the first timeslot bandwidth resource that belongs to the target virtual connection, wherein one or more overhead code blocks of a plurality of overhead code blocks are transmitted over each physical connection of the plurality of physical connections, wherein each of the plurality of overhead code blocks comprises a first field, the first field indicates an identifier of the respective timeslot configuration table used by the respective physical connection, the one or more overhead code blocks transmitted over each respective physical connection of the plurality of physical connections each further comprise a plurality of fields used for a management channel, and the management channel is used to, when a respective timeslot configuration table used by a respective physical connection changes, transmit content of the respective changed timeslot configuration table.
This invention relates to a method for transmitting a service stream over a virtual connection supported by a group of physical connections. The method addresses the challenge of efficiently allocating and managing bandwidth resources across multiple physical connections to ensure reliable data transmission between a transmit end and a receive end. The physical connection group consists of multiple physical connections, each capable of being divided into multiple timeslot resources. Each physical connection uses a timeslot configuration table that maps timeslot resources to specific virtual connections, allowing the transmit end to allocate a portion of the total bandwidth resources to a target virtual connection. The method involves obtaining a service stream, determining the available timeslot bandwidth resources for the target virtual connection based on the timeslot configuration tables of the physical connections, and transmitting the service stream using the allocated timeslot bandwidth. Overhead code blocks are transmitted over each physical connection, containing fields that identify the timeslot configuration table used by that connection. These overhead code blocks also include fields for a management channel, which facilitates the transmission of updated timeslot configuration table content when changes occur. This approach ensures dynamic and efficient bandwidth allocation across multiple physical connections, improving data transmission reliability and flexibility.
2. The method according to claim 1 , wherein the management channel is further used to: when a physical connection configuration table of the physical connection group changes, transmit content of the changed physical connection configuration table of the physical connection group, wherein the physical connection configuration table of the physical connection group indicates an identifier of each physical connection of the plurality of physical connections in the physical connection group and a sequence between the plurality of physical connections.
This invention relates to network management systems, specifically methods for managing physical connections in a network. The problem addressed is the need to efficiently update and synchronize configuration data for groups of physical connections in a network, ensuring proper sequencing and identification of connections. The method involves using a management channel to monitor and transmit changes in a physical connection configuration table. This table stores identifiers for each physical connection within a predefined group and defines the sequence or order of these connections. When the configuration table is modified—for example, due to the addition, removal, or reordering of connections—the management channel automatically transmits the updated table content to relevant network components. This ensures that all parts of the network are aware of the current state of the physical connection group, maintaining consistency and avoiding misconfigurations. The management channel serves as a dedicated communication path for these updates, distinct from the data transmission channels. This separation allows for reliable and timely propagation of configuration changes without disrupting ongoing data traffic. The method is particularly useful in large-scale or dynamic network environments where physical connections may frequently change, such as in data centers or cloud computing infrastructures. By automating the synchronization of connection configurations, the method reduces manual intervention and minimizes errors in network management.
3. The method according to claim 1 , wherein the management channel transmits, based on a protocol packet, a content of a respective timeslot configuration table or a content of a physical connection configuration table of the physical connection group.
A method for managing communication in a network system involves transmitting configuration data over a management channel to optimize resource allocation and synchronization. The system includes multiple physical connections grouped into a physical connection group, where each connection operates in timeslots. The management channel, distinct from data transmission channels, facilitates the exchange of configuration information between network nodes. This method addresses the challenge of efficiently coordinating timeslot assignments and physical connection configurations across distributed network components to ensure reliable and synchronized communication. The management channel transmits protocol packets containing either the content of a timeslot configuration table or the content of a physical connection configuration table for the physical connection group. The timeslot configuration table defines the allocation of timeslots to specific connections, ensuring that time-division multiplexing is managed effectively. The physical connection configuration table specifies the setup and parameters of the physical connections within the group, such as bandwidth, latency, and priority settings. By dynamically updating these configurations via the management channel, the system adapts to changing network demands and maintains optimal performance. This approach enhances scalability and reduces the risk of conflicts or inefficiencies in resource allocation.
4. The method according to claim 3 , wherein the management channel further negotiates, based on the protocol packet, a change of the respective timeslot configuration table or the physical connection configuration table of the physical connection group.
This invention relates to network communication systems, specifically methods for managing and optimizing data transmission in a network with multiple physical connections. The problem addressed is the inefficient use of network resources due to static or inflexible timeslot and connection configurations, which can lead to bandwidth waste or congestion. The method involves a management channel that dynamically adjusts the configuration of a physical connection group. The management channel receives a protocol packet containing information about the current or desired state of the network. Based on this packet, the management channel negotiates changes to either the timeslot configuration table or the physical connection configuration table of the physical connection group. The timeslot configuration table defines how time slots are allocated for data transmission, while the physical connection configuration table specifies the setup of physical links within the group. By dynamically adjusting these configurations, the system can adapt to varying network conditions, improving efficiency and performance. The negotiation process ensures that changes are made in a coordinated manner, preventing conflicts or disruptions in data transmission. This dynamic adjustment capability allows the network to optimize resource allocation in real-time, reducing latency and improving throughput. The invention is particularly useful in high-demand or variable-load environments where static configurations would be inefficient.
5. The method according to claim 1 , wherein all fields of M overhead code blocks in the one or more overhead code blocks transmitted over each physical connection of the plurality of physical connections are used for the management channel, and M is a positive integer.
This invention relates to data transmission systems, specifically methods for managing overhead code blocks in multi-connection networks. The problem addressed is inefficient use of overhead code blocks in managing communication channels across multiple physical connections, leading to suboptimal resource allocation and performance. The method involves transmitting overhead code blocks over a plurality of physical connections in a network. Each physical connection carries multiple overhead code blocks, and all fields within M of these overhead code blocks are dedicated to a management channel. M is a positive integer representing the number of overhead code blocks reserved for management purposes. By fully utilizing all fields of these M overhead code blocks for management functions, the method ensures efficient allocation of resources for tasks such as monitoring, control, and error handling across the network. This approach optimizes bandwidth usage and improves overall system performance by avoiding underutilization of overhead code blocks. The method is particularly useful in high-speed or high-reliability communication systems where effective management of physical connections is critical.
6. The method according to claim 1 , wherein the management channel is a management channel of each physical connection, different physical connections of the plurality of physical connections in the physical connection group correspond to different management channels, and content of a respective timeslot configuration table used by a respective physical connection in the physical connection group, or the content of the physical connection configuration table of the physical connection group, is transmitted using a management channel corresponding to the respective physical connection.
This invention relates to network management systems, specifically for managing multiple physical connections in a group. The problem addressed is the efficient transmission of configuration data, such as timeslot configuration tables or physical connection configuration tables, across different physical connections within a group. The solution involves using dedicated management channels for each physical connection in the group, ensuring that configuration data is transmitted through the appropriate management channel corresponding to the specific physical connection. This approach allows for independent and reliable management of each physical connection, preventing conflicts and ensuring accurate configuration updates. The system dynamically assigns and utilizes separate management channels for different physical connections, enabling scalable and flexible network management. The invention improves network efficiency by reducing overhead and ensuring that configuration data is correctly routed to the intended physical connection, enhancing overall system performance and reliability.
7. The method according to claim 1 , wherein the management channel is a management channel of the physical connection group, the plurality of physical connections in the physical connection group share the management channel of the physical connection group, and content of the one or more timeslot configuration tables used by the plurality of physical connections, or the content of the physical connection configuration table of the physical connection group, is transmitted using the management channel of the physical connection group.
Communication network management. This invention relates to methods for efficiently managing communication resources within a network. Specifically, it addresses the problem of transmitting configuration information for multiple physical connections in a shared manner. The method involves utilizing a management channel associated with a physical connection group. This single management channel is shared by multiple physical connections that are part of that group. Configuration data, specifically the contents of timeslot configuration tables used by these physical connections, or the entire physical connection configuration table for the group, is transmitted over this shared management channel. This allows for centralized and efficient distribution of configuration updates to a set of related physical connections.
8. A method, comprising: receiving, by a receive end, a data stream sent by a transmit end using a physical connection group, wherein the physical connection group comprises a plurality of physical connections, the physical connection group supports a target virtual connection, the target virtual connection is used to transmit a service stream, one or more overhead code blocks of a plurality of overhead code blocks are transmitted over each physical connection in the plurality of physical connections, the one or more overhead code blocks each comprise a first field, the first field indicates an identifier of a respective timeslot configuration table used by a respective physical connection, the one or more overhead code blocks transmitted over each physical connection further comprise a plurality of fields used for a management channel, and the management channel is used to, when a respective timeslot configuration table used by a respective physical connection changes, transmit content of the changed timeslot configuration table; determining, by the receive end, from total bandwidth resources of the plurality of physical connections, and according to one or more timeslot configuration tables which are used by the plurality of physical connections, a first timeslot bandwidth resource that belongs to the target virtual connection, wherein the one or more timeslot configuration tables used by the plurality of physical connections respectively indicate a virtual connection to which a timeslot resource of a plurality of timeslot resources belongs, and wherein the plurality of timeslot resources are obtained by dividing a bandwidth resource of each physical connection of the plurality of physical connections; and restoring, from the received data stream and according to the first timeslot bandwidth resource that belongs to the target virtual connection, the service stream transmitted over the target virtual connection.
This invention relates to data transmission systems using multiple physical connections to form a virtual connection for transmitting service streams. The problem addressed is efficiently managing and restoring service streams when multiple physical connections are aggregated into a virtual connection, particularly when timeslot configurations change dynamically. The method involves a receive end processing a data stream sent by a transmit end over a physical connection group comprising multiple physical connections. Each physical connection transmits one or more overhead code blocks containing a first field that identifies a timeslot configuration table for that connection. These overhead code blocks also include fields for a management channel, which transmits updated timeslot configuration tables when changes occur. The receive end determines the bandwidth allocated to a target virtual connection by analyzing the timeslot configuration tables across all physical connections. These tables define how timeslot resources (derived from dividing each physical connection's bandwidth) are assigned to virtual connections. Finally, the receive end restores the original service stream by extracting data from the timeslot bandwidth resources allocated to the target virtual connection. This approach ensures efficient bandwidth utilization and dynamic adaptation to changes in timeslot configurations across multiple physical connections.
9. The method according to claim 8 , wherein the management channel is further used to: when a physical connection configuration table of the physical connection group changes, transmit content of the changed physical connection configuration table of the physical connection group, wherein the physical connection configuration table of the physical connection group indicates an identifier of each physical connection of the plurality of physical connections in the physical connection group and a sequence between the physical connections.
This invention relates to network management systems, specifically methods for managing physical connections in a network. The problem addressed is the need for efficient and dynamic management of physical connections within a network, particularly when configurations change. The invention provides a method for updating and transmitting configuration data for a group of physical connections when changes occur. The method involves using a management channel to monitor and transmit updates to a physical connection configuration table. This table stores identifiers for each physical connection in a group and defines the sequence or order of these connections. When the configuration table is modified, the management channel automatically transmits the updated content to relevant network components. This ensures that all parts of the network are synchronized with the latest connection configurations, maintaining proper routing and connectivity. The management channel serves as a dedicated communication path for these updates, allowing for real-time adjustments without disrupting ongoing network operations. This approach improves network reliability and reduces the risk of misconfigurations or connectivity issues caused by outdated connection data. The method is particularly useful in large-scale or complex network environments where physical connections are frequently reconfigured.
10. The method according to claim 8 , wherein the management channel transmits, based on a protocol packet, content of a respective timeslot configuration table or content of a physical connection configuration table of the physical connection group.
A method for managing communication in a network system involves configuring and transmitting data over a management channel. The system includes multiple physical connections grouped into a physical connection group, where each connection is assigned to a timeslot for data transmission. The management channel is used to transmit configuration data, including the content of a timeslot configuration table or a physical connection configuration table for the physical connection group. The timeslot configuration table defines the allocation of timeslots to each physical connection, specifying when and how data is transmitted. The physical connection configuration table contains details about the physical connections, such as their identifiers, status, and operational parameters. The management channel operates based on a protocol packet, which structures the transmission of this configuration data to ensure proper synchronization and coordination between network components. This method improves network efficiency by dynamically adjusting timeslot assignments and connection configurations, reducing latency and optimizing bandwidth usage. The approach is particularly useful in high-speed or time-sensitive communication systems where precise timing and configuration management are critical.
11. A transmitter, comprising: a first network interface, configured to obtain a to-be-transmitted service stream, wherein the to-be-transmitted service stream is to be transmitted by the transmitter to a receive end using a target virtual connection, wherein the target virtual connection is supported by a physical connection group between the transmitter and the receive end, the physical connection group comprises a plurality of physical connections; a processor communicatively coupled to the first network interface and a second network interface, the processor configured to determine, from total bandwidth resources of the plurality of physical connections, and according to one or more timeslot configuration tables used by the plurality of physical connections, a first timeslot bandwidth resource that belongs to the target virtual connection, wherein each physical connection of the plurality of physical connections uses a timeslot configuration table of the one or more timeslot configuration tables, each timeslot configuration table of the one or more timeslot configuration tables indicates a virtual connection to which a timeslot resource of a plurality of timeslot resources belongs, and wherein the plurality of timeslot resources are obtained by dividing a bandwidth resource of each physical connection of the plurality of physical connections; and the second network interface, configured to transmit the service stream to the receive end using the first timeslot bandwidth resource that belongs to the target virtual connection, wherein one or more overhead code blocks of a plurality of overhead code blocks are transmitted over each physical connection, wherein each of the plurality of overhead code blocks comprises a first field, the first field indicates an identifier of the respective timeslot configuration table used by the respective physical connection, the one or more overhead code blocks transmitted over each physical connection further comprises a plurality of fields used for a management channel, and the management channel is used to, when a respective timeslot configuration table used by a respective physical connection changes, transmit content of a respective changed timeslot configuration table.
This invention relates to a transmitter system for efficiently managing bandwidth allocation in a network with multiple physical connections. The problem addressed is the need to dynamically allocate and manage bandwidth resources across a group of physical connections supporting multiple virtual connections, ensuring efficient and flexible transmission of service streams. The transmitter includes a first network interface to obtain a service stream for transmission to a receive end via a target virtual connection. The target virtual connection is supported by a physical connection group comprising multiple physical connections. A processor is communicatively coupled to the first network interface and a second network interface. The processor determines a first timeslot bandwidth resource from the total bandwidth of the physical connections, using one or more timeslot configuration tables. Each physical connection uses a timeslot configuration table that maps timeslot resources to virtual connections, where the timeslot resources are derived by dividing the bandwidth of each physical connection. The second network interface transmits the service stream using the allocated timeslot bandwidth resource. Overhead code blocks are transmitted over each physical connection, containing a field that identifies the timeslot configuration table used by that connection. Additional fields in the overhead code blocks support a management channel, which transmits updated timeslot configuration table content when changes occur. This ensures dynamic reconfiguration of bandwidth allocation without disrupting ongoing transmissions. The system optimizes bandwidth utilization and supports flexible virtual connection management in multi-physical-connection networks.
12. The transmitter according to claim 11 , wherein the management channel is further used to: when a physical connection configuration table of the physical connection group changes, transmit content of the changed physical connection configuration table of the physical connection group, wherein the physical connection configuration table of the physical connection group indicates an identifier of each physical connection in the physical connection group and a sequence between the physical connections.
This invention relates to a transmitter system for managing physical connections in a network, particularly addressing the need to efficiently update and synchronize connection configurations across a group of physical connections. The system includes a transmitter that establishes a management channel for communicating with a receiver. The management channel is used to transmit a physical connection configuration table, which contains identifiers for each physical connection in a group and defines the sequence or order of these connections. When the configuration table changes—for example, due to additions, removals, or reordering of physical connections—the transmitter automatically sends the updated table content over the management channel. This ensures that the receiver remains synchronized with the current state of the physical connection group, enabling reliable data transmission and management. The system is designed to handle dynamic changes in network topology, such as those occurring in high-speed or multi-path communication environments, by providing real-time updates to connection configurations. The transmitter may also include additional features, such as error detection and correction mechanisms, to ensure the integrity of the transmitted configuration data. The invention improves network efficiency and reliability by maintaining accurate and up-to-date connection configurations across distributed systems.
13. The transmitter according to claim 11 , wherein the management channel transmits, based on a protocol packet, content of a respective timeslot configuration table or a content of the physical connection configuration table of the physical connection group.
A transmitter system is designed to manage and configure communication channels in a network, particularly for time-division multiplexing (TDM) or similar protocols. The system addresses the challenge of efficiently transmitting configuration data across multiple physical connections in a network, ensuring synchronized and reliable communication between nodes. The transmitter includes a management channel that dynamically transmits configuration data, such as timeslot assignments or physical connection settings, to maintain proper network operation. The management channel operates using a protocol packet structure to convey configuration details. It can transmit either the content of a timeslot configuration table or the content of a physical connection configuration table for a specific physical connection group. The timeslot configuration table defines how time slots are allocated across the network, while the physical connection configuration table specifies the settings for individual physical connections, such as bandwidth, latency, or routing paths. By dynamically transmitting these configurations, the system ensures that all network nodes are synchronized and can adapt to changes in network conditions or requirements. This approach improves flexibility and reliability in network management, particularly in environments where connections may be frequently reconfigured or where real-time adjustments are necessary.
14. The transmitter according to claim 13 , wherein the management channel is further used to negotiate, based on the protocol packet, a change of the respective timeslot configuration table or the physical connection configuration table of the physical connection group.
This invention relates to wireless communication systems, specifically improving the management and configuration of communication channels between devices. The problem addressed is the need for efficient and flexible negotiation of communication parameters, such as timeslot assignments and physical connection configurations, in a multi-device network. The system includes a transmitter that communicates with a receiver over a management channel, which is used to exchange protocol packets containing configuration data. The transmitter and receiver are part of a physical connection group, where multiple devices share a common communication medium. The transmitter includes a configuration module that maintains a timeslot configuration table and a physical connection configuration table, which define how communication resources are allocated among devices in the group. The management channel is used to negotiate changes to these configuration tables based on the protocol packets exchanged between the transmitter and receiver. This allows dynamic adjustments to communication parameters, such as reallocating timeslots or modifying physical connection settings, to optimize performance or adapt to changing network conditions. The negotiation process ensures that all devices in the group remain synchronized with the updated configurations, preventing conflicts and ensuring reliable communication. This approach enhances flexibility and efficiency in managing shared communication resources in wireless networks.
15. The transmitter according to claim 11 , wherein all fields of M overhead code blocks in the one or more overhead code blocks transmitted over each physical connection are used for the management channel, and M is a positive integer.
A transmitter system is designed to manage overhead communication in a network, particularly for handling management channels over physical connections. The system addresses the challenge of efficiently utilizing overhead code blocks to ensure reliable and organized transmission of management data. In this system, all fields of M overhead code blocks in the one or more overhead code blocks transmitted over each physical connection are dedicated to the management channel. The value M is a positive integer, allowing flexibility in the number of code blocks allocated. The management channel is used for transmitting control and administrative data, ensuring proper network operation. The transmitter ensures that these overhead code blocks are fully utilized for management purposes, optimizing bandwidth and reducing inefficiencies. This approach enhances network reliability by dedicating specific code blocks to management functions, preventing interference with other data transmissions. The system is particularly useful in high-traffic networks where efficient management channel allocation is critical for maintaining performance and stability. By fully utilizing the overhead code blocks for management, the transmitter improves overall network efficiency and reduces the risk of communication errors.
16. The transmitter according to claim 11 , wherein the management channel is a management channel of a respective physical connection, different physical connections in the physical connection group correspond to different management channels, and content of a respective timeslot configuration table used by the respective physical connection in the physical connection group, or content of the physical connection configuration table of the physical connection group, is transmitted using a respective management channel corresponding to the respective physical connection.
This invention relates to a transmitter system for managing multiple physical connections in a network, particularly focusing on efficient transmission of configuration data. The problem addressed is the need to dynamically manage and configure multiple physical connections within a group, ensuring reliable and organized transmission of configuration information without overwhelming the network or causing conflicts. The transmitter includes a management channel for each physical connection in a group, where each physical connection has a dedicated management channel. Different physical connections within the group are assigned distinct management channels to prevent interference and ensure proper data routing. The system uses timeslot configuration tables or physical connection configuration tables to manage the connections. The content of these tables, which define the operational parameters of each physical connection, is transmitted over the respective management channel corresponding to that connection. This ensures that configuration data is sent to the correct physical connection without mixing or misrouting. The approach improves network efficiency by reducing overhead and ensuring that each connection receives the appropriate configuration updates in a structured manner. The system is particularly useful in high-density network environments where multiple physical connections must be managed simultaneously.
17. The transmitter according to claim 11 , wherein the management channel is a management channel of the physical connection group, the plurality of physical connections in the physical connection group share the management channel of the physical connection group, and content of the one or more timeslot configuration tables used by the plurality of physical connections, or content of the physical connection configuration table of the physical connection group, is transmitted using the management channel of the physical connection group.
A system for managing multiple physical connections in a network involves a transmitter that utilizes a shared management channel for a group of physical connections. The physical connections within the group share a common management channel, which is dedicated to the group rather than individual connections. This shared management channel facilitates the transmission of configuration data, including timeslot configuration tables or a physical connection configuration table for the group. The timeslot configuration tables define how time slots are allocated among the physical connections, while the physical connection configuration table contains settings specific to the group. By using a shared management channel, the system reduces overhead and simplifies management by centralizing configuration updates and monitoring for the entire group of physical connections. This approach is particularly useful in high-density networking environments where efficient resource utilization and streamlined management are critical. The transmitter ensures that all physical connections in the group receive the necessary configuration data through the shared channel, maintaining synchronization and optimal performance across the network.
18. A receiver, comprising: a network interface, configured to receive, a data stream from a transmit end, wherein the data stream is sent to the receiver from the transmit end using a physical connection group, wherein the physical connection group comprises a plurality of physical connections, wherein the plurality of physical connections support a target virtual connection, wherein the target virtual connection is used to transmit a service stream, one or more overhead code blocks of a plurality of overhead code blocks are transmitted over each physical connection in the plurality of physical connections, wherein each of the one or more overhead code blocks comprises a first field, the first field indicates an identifier of a respective timeslot configuration table used by a respective physical connection over which the respective overhead code block is transmitted, each overhead code block transmitted over a respective physical connection further comprises a plurality of fields used for a management channel, and the management channel is used to, when a respective timeslot configuration table used by a respective physical connection changes, transmit content of the changed timeslot configuration table; a processor communicatively coupled to the network interface, the processor configured to determine, from total bandwidth resources of the plurality of physical connections and according to one or more timeslot configuration tables used by the plurality of physical connections, a first timeslot bandwidth resource that belongs to the target virtual connection, wherein the one or more timeslot configuration tables used by the plurality of physical connections respectively indicate a virtual connection to which a timeslot resource of a plurality of timeslot resources belongs, and wherein the plurality of timeslot resources are obtained by dividing a bandwidth resource of each physical connection of the plurality of physical connections; and restore, from the received data stream and according to the first timeslot bandwidth resource that belongs to the target virtual connection, the service stream transmitted over the target virtual connection.
This invention relates to a receiver for managing and restoring service streams transmitted over a virtual connection supported by multiple physical connections. The system addresses the challenge of efficiently allocating and utilizing bandwidth resources across a group of physical connections to support a target virtual connection, ensuring reliable transmission and restoration of service streams. The receiver includes a network interface that receives a data stream from a transmit end via a physical connection group comprising multiple physical connections. Each physical connection supports the target virtual connection and transmits one or more overhead code blocks. Each overhead code block contains a first field indicating an identifier of a timeslot configuration table used by the respective physical connection. The overhead code blocks also include fields for a management channel, which transmits updated timeslot configuration table content when changes occur. The processor, coupled to the network interface, determines the first timeslot bandwidth resource allocated to the target virtual connection by analyzing the total bandwidth resources of the physical connections and the timeslot configuration tables. These tables specify which virtual connection each timeslot resource belongs to, as the bandwidth of each physical connection is divided into multiple timeslot resources. The processor then restores the service stream from the received data stream based on the identified timeslot bandwidth resource. This approach ensures efficient bandwidth management and reliable service stream restoration in multi-connection environments.
19. The receiver according to claim 18 , wherein the management channel is further used to: when a physical connection configuration table of the physical connection group changes, transmit content of the changed physical connection configuration table of the physical connection group, wherein the physical connection configuration table of the physical connection group indicates an identifier of each physical connection in the physical connection group and a sequence between the physical connections.
A receiver system is designed to manage multiple physical connections in a network, particularly in scenarios where maintaining ordered and synchronized connections is critical. The system includes a management channel that facilitates communication between the receiver and a transmitter, ensuring proper configuration and synchronization of physical connections. The management channel is used to transmit configuration data, including updates to a physical connection configuration table. This table contains identifiers for each physical connection within a group and defines the sequence or order in which these connections should be processed. When changes occur in the physical connection configuration table, such as modifications to the identifiers or the sequence of connections, the updated content is transmitted via the management channel. This ensures that both the receiver and transmitter maintain consistent and accurate connection configurations, preventing errors and improving reliability in data transmission. The system is particularly useful in high-availability networks where maintaining ordered connections is essential for proper operation.
20. The receiver according to claim 18 , wherein the management channel transmits, based on a protocol packet, content of a respective timeslot configuration table or the content of a physical connection configuration table of the physical connection group.
A receiver system is designed to manage communication in a network environment where multiple physical connections are grouped together. The system addresses the challenge of efficiently configuring and transmitting data across these connections to ensure reliable and synchronized communication. The receiver includes a management channel that facilitates the exchange of configuration data between network nodes. This management channel is capable of transmitting protocol packets that contain specific configuration details. These details include the content of a timeslot configuration table, which defines how time slots are allocated for data transmission, and the content of a physical connection configuration table, which specifies the setup and parameters of the physical connections within a connection group. By transmitting this configuration data, the system ensures that all nodes in the network are synchronized and properly configured for optimal data transfer. The management channel operates independently of the data channels, allowing for dynamic adjustments and real-time updates to the network configuration without disrupting ongoing data transmission. This approach enhances network flexibility and reliability, particularly in environments where multiple physical connections must be managed simultaneously.
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February 4, 2020
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